Open an exact platform page for its source-derived configuration, then confirm the selected battery, PCS, BMS, EMS, cooling and fire system, grid and backup interface, included equipment, documents, civil and electrical scope, transport, commissioning, warranty, availability, and price.
50 kW rated charge and discharge power / 50 kWh nominal system energy air-cooled commercial & industrial energy storage cabinet for small commercial self-consumption, demand management and backup projects.
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50 kW rated charge and discharge power / 112.53 kWh / 100.35 kWh, depending on the selected 314 Ah / 280 Ah battery option air-cooled commercial & industrial energy storage cabinet for c&i peak shaving, solar self-consumption and backup support.
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125 kW rated charge and discharge power / 241.15 kWh / 215.04 kWh, depending on LFP battery option air-cooled commercial & industrial energy storage cabinet for commercial peak shaving, solar-plus-storage and demand-charge management.
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125 kW / 257 kWh air-cooled commercial & industrial energy storage cabinet for larger c&i solar-plus-storage, load shifting and grid-connected backup projects.
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125 kW AC system class; 130.5 kW DC rated power stated / 261 kWh liquid-cooled commercial & industrial energy storage cabinet for high-utilisation c&i storage, solar shifting and demand-charge management.
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PCS and AC block to be configured for the project / 1.2 MWh air-cooled containerized energy storage system for industrial parks, microgrids and utility-adjacent energy-shifting projects.
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Up to 1000 kW active off-grid AC power stated; grid block by project / 2.411 MWh air-cooled containerized energy storage system for large industrial microgrids, renewable integration and utility-scale storage blocks.
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6 kW / 10 kW inverter options / 10 kWh / 20 kWh / 30 kWh indoor stacked battery and inverter energy storage system for residential solar self-consumption, time-of-use shifting and backup systems.
View DetailsThe current pages span residential equipment, C&I cabinets, and containers. The word integrated or all-in-one does not guarantee that every required battery, conversion, control, safety, grid, transformer, installation, or commissioning item is included.
One indoor IP20 stacked inverter-and-battery platform. Confirm exact inverter, modules, BMS, backup circuits, PV input, parallel limits, protection, installation, grid settings, and accessories.
Four cabinet pages with different battery, voltage, PCS, AC, cooling, fire, communication, mass, and energy options. Fix the exact configuration and whether PCS or PV interface is included.
One high-utilisation cabinet page with source-derived liquid cooling and fire-detection details. Exact AC PCS, coolant service, safety configuration, approvals, and transport require project quotation.
Two 20-foot and 40-foot platforms. PCS, transformer, MV switchgear, HVAC, fire strategy, auxiliary power, controls, foundation, lifting, transport route, grid code, and site integration are project scope.
ESS procurement begins with an operating objective and responsibility matrix. Battery energy, power conversion, controls, thermal and fire design, AC or MV interfaces, logistics, installation, testing, and long-term service must be reviewed together.
Define backup, self-consumption, peak management, demand response, microgrid, generator reduction, renewable shifting, grid services, islanding, load profile, duration, cycles, and dispatch ownership.
Separate kW from kWh; confirm charge/discharge duration, usable DoD, C-rate, efficiency boundary, reserve, auxiliary loads, temperature, availability, degradation, augmentation, end-of-life, and warranty throughput.
Fix chemistry, cell and module configuration, DC voltage window, current, racks, strings, master BMS, balancing, isolation, fusing, contactors, PDU, alarms, emergency shutdown, monitoring, and service replacement.
Define PCS or inverter, AC voltage, transformer and switchgear, grid code, protection, power quality, EMS or controller, SCADA, meter, generator, STS or changeover, islanding, black start, and cybersecurity.
Confirm air or liquid cooling, HVAC redundancy, coolant, detection, suppression, ventilation, gas and smoke strategy, compartmentation, emergency response, spacing, access, local fire review, and maintenance.
Review dimensions, mass, floor or foundation load, lifting, route survey, dangerous-goods transport, storage, drawings, certificates, FAT, SAT, grid tests, installation, training, spares, warranties, handover, and responsibility matrix.
The displayed pages are source-derived system platforms. Final battery and PCS configuration, included subsystems, performance basis, fire strategy, transport, grid approval, civil and electrical design, installation, commissioning, service, availability, and commercial obligations require project evidence.
Battery, PCS, BMS, EMS, HVAC, fire system, switchgear, transformer, auxiliary power, metering, protection, controls, cables, installation, testing, and site works must be itemized.
Detection or suppression wording does not establish hazard analysis, propagation evidence, ventilation, spacing, water strategy, emergency response, local code compliance, insurer acceptance, or authority approval.
Cell, battery pack, DC system, PCS, and AC system efficiency differ. Cycle life and years depend on DoD, C-rate, temperature, end-of-life threshold, duty cycle, augmentation, availability, and warranty terms.
Dimensions alone do not prove route, lifting, foundation, customs, dangerous-goods acceptance, transformer and MV fit, cable access, site storage, installation, grid tests, or commissioning readiness.
Use the hybrid solution to define the full system boundary, then use the sizing guide to connect power, energy, load, duration, operating mode, losses, reserve, and degradation to a reviewable RFQ.
Define PV, battery, PCS or inverter, BMS, EMS, backup, generator, switchgear, transformer, thermal and fire strategy, controls, installation, documents, and project responsibilities.
Review storage solution
Use load power, energy, duration, critical circuits, peak management, PV, grid behavior, usable DoD, efficiency, reserve, degradation, and duty cycle instead of a generic kWh ratio.
Read storage sizing guide
These answers define an RFQ starting point. Final electrical, civil, thermal, fire, controls, grid, transport, installation, commissioning, local approval, performance, and warranty decisions remain project-specific.
A battery module stores DC energy and normally needs additional BMS hierarchy, protection, enclosure, inverter or PCS, controls, and installation. An ESS combines some of those functions, but its exact scope still has to list battery, conversion, BMS, EMS, cooling, fire system, switchgear, transformer, auxiliary power, controls, cables, commissioning, and site works.
kW describes power and kWh describes energy. Select both from the load and operating objective, then account for usable DoD, C-rate, inverter and auxiliary losses, reserve, temperature, degradation, peak loads, charge source, required duration, availability, and duty cycle. A kWh number alone does not establish runtime.
No. Confirm the exact detection and suppression configuration, test evidence, cell and module design, enclosure, ventilation, gas or smoke strategy, spacing, emergency response, local fire and building requirements, insurer or owner specifications, installation design, commissioning, and authority review.
Include site and destination, operating objective, load profile, required kW/kWh and duration, cycles, PV and grid conditions, battery and PCS preference, AC or MV interface, backup and generator role, EMS and SCADA, thermal and fire requirements, environment, civil constraints, documents, transport, installation, commissioning, warranty, service, quantity, and schedule.
Compare eight displayed energy storage platforms: one 10–30 kWh residential all-in-one system, four 50–257 kWh air-cooled C&I cabinets, one 125 kW / 261 kWh liquid-cooled cabinet, and two 1.2–2.411 MWh containerized systems. Confirm the exact battery, PCS or inverter, BMS, EMS, cooling, fire strategy, switchgear, transformer, grid and backup behavior, controls, enclosure, transport, site works, documents, and commissioning boundary before quotation.
Send the load and use case, kW/kWh, duration and cycles, PV and grid, battery and PCS, AC or MV interface, controls, backup, thermal and fire requirements, site, documents, logistics, commissioning, service, and schedule. Final configuration, scope, price, availability, and performance terms require project quotation.
